C# To Fortran Converter

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Convert hundreds of lines of C# code into Fortran with one click. Completely free, no sign up required.

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What Is C# To Fortran Converter?

An AI C# to Fortran converter is an online tool designed to help you translate code written in C# into Fortran, streamlining your programming tasks. This converter uses sophisticated technology, including generative AI, machine learning, and natural language processing, to ensure accurate and efficient code transformation. The process involves three main steps:

  1. Input: You begin by entering the C# code that you wish to convert.
  2. Processing: During this step, the converter analyzes and processes the input code. It uses various algorithms and models to understand the structure and logic of the C# code, ensuring that all relevant functions and syntax are considered.
  3. Output: After processing, the tool generates the corresponding Fortran code, which is now ready for you to integrate into your projects.

How Is C# Different From Fortran?

C# and Fortran serve different purposes and audiences within the programming world. C# is a versatile, modern programming language that excels in building a wide range of applications, from desktop software to web services. In contrast, Fortran, one of the earliest high-level programming languages, continues to be a staple in numerical and scientific computing fields, especially in engineering and physics. Understanding the distinctions between these two languages can significantly enhance your development journey, especially if you’re transitioning from C# to Fortran.

  • Paradigms: C# embraces both object-oriented and functional programming paradigms, allowing developers to design intricate systems with reusable components and flexible code structures. On the other hand, Fortran predominantly adheres to a procedural paradigm, emphasizing a step-by-step approach to programming, which can lead to more linear and understandable code for specific numerical tasks.
  • Syntax: The syntax of C# is known for its complexity and expressiveness, offering a rich set of features that may require a steeper learning curve. In comparison, Fortran’s simpler syntax is more straightforward in its structure, making it easier for those focused on algorithmic calculations to read and write code quickly.
  • Memory Management: One of the significant conveniences of C# is its automatic garbage collection, which helps manage memory usage without extensive programmer involvement. Fortran requires developers to handle memory management manually, allowing for more control but also placing a heavier burden on developers to avoid memory leaks and errors.
  • Standard Libraries: C# benefits from extensive libraries provided by the .NET framework, giving developers access to a wide array of tools and functions that streamline application development. Conversely, Fortran has a more limited selection of standard libraries, which means developers often need to implement their own functions for various tasks.
  • Community and Support: The C# community is large and vibrant, offering a wealth of resources, forums, and documentation to aid developers. In contrast, while Fortran has a dedicated user base, it is smaller, potentially leading to a thinner resource network for troubleshooting and collaboration.
Feature C# Fortran
Programming Paradigm Object-oriented, functional Procedural
Syntax Complex Simple
Memory Management Automatic GC Manual
Libraries Extensive (.NET) Limited
Community Support Large Smaller

How Does Minary’s C# To Fortran Converter Work?

The Minary C# To Fortran converter simplifies your coding tasks by providing a streamlined process to convert your C# code into Fortran. You start by describing your programming task in the input field on the left side of the generator. This should include specific details about the C# code you need converting, such as the functions, libraries, or any relevant context that will aid in the conversion.

Once you’ve outlined the task, click on the generate button. The generator then processes your input, analyzing the intricacies of your C# code to produce an equivalent Fortran code snippet. On the right side, the converted code will be displayed for your review. You can easily copy this code using the copy button at the bottom, making it straightforward to integrate into your projects.

To enhance the generator’s accuracy, there’s an option for you to provide feedback using the vote buttons beneath the generated code. Your input will help train the model, ensuring future tasks are handled even better.

For example, if you enter a prompt like “Convert the following C# function that calculates the square of a number into Fortran,” specifying the code snippet, the generator will deliver a precise Fortran equivalent ready for use. This makes the C# To Fortran converter not just effective, but also intuitive, catering to your programming needs with clarity.

Examples Of Converted Code From C# To Fortran

using System;
using System.Collections.Generic;
using System.Linq;

class Program
{
static void Main()
{
List numbers = new List();
Console.WriteLine(“Enter numbers (type ‘done’ to finish):”);

while (true)
{
string input = Console.ReadLine();
if (input.ToLower() == “done”) break;

if (double.TryParse(input, out double number))
{
numbers.Add(number);
}
else
{
Console.WriteLine(“Please enter a valid number or ‘done’ to finish.”);
}
}

if (numbers.Count > 0)
{
double average = numbers.Average();
double max = numbers.Max();
double min = numbers.Min();

Console.WriteLine($”Average: {average}”);
Console.WriteLine($”Maximum: {max}”);
Console.WriteLine($”Minimum: {min}”);
}
else
{
Console.WriteLine(“No numbers were entered.”);
}
}
}

program CalculateNumbers
implicit none
integer, parameter :: maxNumbers = 100
real(8) :: numbers(maxNumbers)
integer :: count, i
character(len=100) :: input
real(8) :: average, max, min

count = 0
print *, “Enter numbers (type ‘done’ to finish):”

do
read(*, ‘(A)’) input
if (trim(adjustl(input)) == ‘done’) exit

if (read(input, *, iostat=i) number) then
if (i == 0) then
count = count + 1
numbers(count) = number
else
print *, “Please enter a valid number or ‘done’ to finish.”
end if
end if
end do

if (count > 0) then
average = sum(numbers(1:count)) / count
max = maxval(numbers(1:count))
min = minval(numbers(1:count))

print *, “Average: “, average
print *, “Maximum: “, max
print *, “Minimum: “, min
else
print *, “No numbers were entered.”
end if
end program CalculateNumbers

using System;
using System.Collections.Generic;

class FinanceTracker
{
private Dictionary income = new Dictionary();
private Dictionary expenses = new Dictionary();

public void AddIncome(string source, decimal amount)
{
if (income.ContainsKey(source))
{
income[source] += amount;
}
else
{
income[source] = amount;
}
}

public void AddExpense(string category, decimal amount)
{
if (expenses.ContainsKey(category))
{
expenses[category] += amount;
}
else
{
expenses[category] = amount;
}
}

public decimal GetTotalIncome()
{
decimal totalIncome = 0;
foreach (var amount in income.Values)
{
totalIncome += amount;
}
return totalIncome;
}

public decimal GetTotalExpenses()
{
decimal totalExpenses = 0;
foreach (var amount in expenses.Values)
{
totalExpenses += amount;
}
return totalExpenses;
}

public decimal GetBalance()
{
return GetTotalIncome() – GetTotalExpenses();
}

public void PrintSummary()
{
Console.WriteLine(“—– Finance Summary —–“);
Console.WriteLine($”Total Income: {GetTotalIncome():C}”);
Console.WriteLine($”Total Expenses: {GetTotalExpenses():C}”);
Console.WriteLine($”Balance: {GetBalance():C}”);
Console.WriteLine(“nExpenses by Category:”);
foreach (var category in expenses)
{
Console.WriteLine($”{category.Key}: {category.Value:C}”);
}
Console.WriteLine(“—————————“);
}
}

class Program
{
static void Main(string[] args)
{
FinanceTracker tracker = new FinanceTracker();
string command;

do
{
Console.WriteLine(“Enter command (add_income, add_expense, summary, exit): “);
command = Console.ReadLine();

if (command == “add_income”)
{
Console.Write(“Enter income source: “);
string source = Console.ReadLine();
Console.Write(“Enter income amount: “);
decimal amount = Convert.ToDecimal(Console.ReadLine());
tracker.AddIncome(source, amount);
}
else if (command == “add_expense”)
{
Console.Write(“Enter expense category: “);
string category = Console.ReadLine();
Console.Write(“Enter expense amount: “);
decimal amount = Convert.ToDecimal(Console.ReadLine());
tracker.AddExpense(category, amount);
}
else if (command == “summary”)
{
tracker.PrintSummary();
}

} while (command != “exit”);
}
}

program FinanceTracker
implicit none
integer, parameter :: max_entries = 100
character(50) :: income_sources(max_entries), expense_categories(max_entries)
real(8) :: income_amounts(max_entries), expense_amounts(max_entries)
integer :: income_count, expense_count

income_count = 0
expense_count = 0

contains

subroutine AddIncome(source, amount)
character(len=*), intent(in) :: source
real(8), intent(in) :: amount
integer :: i
logical :: found

found = .false.
do i = 1, income_count
if (income_sources(i) == source) then
income_amounts(i) = income_amounts(i) + amount
found = .true.
exit
end if
end do

if (.not. found .and. income_count < max_entries) then income_count = income_count + 1 income_sources(income_count) = source income_amounts(income_count) = amount end if end subroutine AddIncome subroutine AddExpense(category, amount) character(len=*), intent(in) :: category real(8), intent(in) :: amount integer :: i logical :: found found = .false. do i = 1, expense_count if (expense_categories(i) == category) then expense_amounts(i) = expense_amounts(i) + amount found = .true. exit end if end do if (.not. found .and. expense_count < max_entries) then expense_count = expense_count + 1 expense_categories(expense_count) = category expense_amounts(expense_count) = amount end if end subroutine AddExpense real(8) function GetTotalIncome() integer :: i GetTotalIncome = 0.0d0 do i = 1, income_count GetTotalIncome = GetTotalIncome + income_amounts(i) end do end function GetTotalIncome real(8) function GetTotalExpenses() integer :: i GetTotalExpenses = 0.0d0 do i = 1, expense_count GetTotalExpenses = GetTotalExpenses + expense_amounts(i) end do end function GetTotalExpenses real(8) function GetBalance() GetBalance = GetTotalIncome() - GetTotalExpenses() end function GetBalance subroutine PrintSummary() integer :: i print *, "----- Finance Summary -----" print *, "Total Income: ", GetTotalIncome() print *, "Total Expenses: ", GetTotalExpenses() print *, "Balance: ", GetBalance() print *, "" print *, "Expenses by Category:" do i = 1, expense_count print *, expense_categories(i), ": ", expense_amounts(i) end do print *, "---------------------------" end subroutine PrintSummary end program FinanceTracker program main implicit none character(20) :: command character(50) :: source, category real(8) :: amount integer :: exit_flag exit_flag = 0 do while (exit_flag == 0) print *, "Enter command (add_income, add_expense, summary, exit): " read(*,'(A)') command select case (trim(command)) case ("add_income") print *, "Enter income source: " read(*,'(A)') source print *, "Enter income amount: " read(*,*) amount call AddIncome(trim(source), amount) case ("add_expense") print *, "Enter expense category: " read(*,'(A)') category print *, "Enter expense amount: " read(*,*) amount call AddExpense(trim(category), amount) case ("summary") call PrintSummary() case ("exit") exit_flag = 1 case default print *, "Invalid command. Please try again." end select end do end program main

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